Abstract: This sealing device comprises: a sealing member provided between a rotating part and a stationary part of a rotating machine in a radial direction of the rotating machine; a holding member for supporting the sealing member movably along the radial direction, the holding member being at least partly accommodated in a groove provided in the stationary part so as to extend along a circumferential direction; and a plurality of first biasing members provided at a plurality of different locations, respectively, in the circumferential direction, each first biasing member being accommodated in the holding member and configured to bias the sealing member along a vertical direction with respect to the holding member. The plurality of first biasing members are configured to generate biasing forces, respectively, which are parallel to each other.

Abstract: A seal device, includes: a seal member disposed between a rotating part and a stationary part of a rotating machine in a radial direction of the rotating machine; and a retention member for supporting the seal member movably along the radial direction, the retention member being at least partially accommodated in a groove disposed in the stationary part so as to extend along a circumferential direction. The retention member has: a base portion accommodated in the groove; and a protruding portion protruding radially inward from the base portion. The seal member has a sliding surface which is adjacent to the protruding portion in an axial direction and is slidable on the protruding portion.

Abstract: A video display device includes: a camera configured to capture video of surroundings of a vehicle; a storage unit configured to store the video captured by the camera as past video; a control unit configured to select video to be synthesized from real-time video captured by the camera and the past video stored in the storage unit based on a situation around the vehicle or a traveling state of the vehicle, and output bird's-eye view video looking down at the vehicle from a viewpoint above the vehicle, the bird's-eye view video being obtained by synthesizing the video selected; and a display unit configured to display the bird's-eye view video output by the control unit.

Abstract: A ground surface estimation method includes: a continuous region recognizing step for recognizing, when a difference in altitude value between a representative point of one grid and a representative point of another adjacent grid out of the plurality of grids is equal to or less than a threshold, the one grid and the other adjacent grid as a continuous region that is a region where the one grid and the other adjacent grid are continuous; and a ground surface estimation step for estimating a continuous region having the largest number of grids among the continuous regions as a ground surface.

Abstract: Provided is a surface inspection device 1 comprising a sample-driving unit 4 that stably holds a sample 2 irrespective of a rotation angle and that can precisely control the position of the sample 2 relative to vertical-direction driving. The sample-driving unit 4 has a support member 4a that holds the sample 2 and that can displace a sample-holding unit 3 in the vertical direction, and a sample drive source 4b that generates drive force for driving the sample 2. Based on the in-plane position and vertical-direction position of the sample 2 as sensed by a displacement sensor 10 while a spindle shaft 5 is rotating, a controller 13 calculates a different vertical-direction adjustment amount for each in-plane position of the sample 2 and drives the sample 2 by a first adjustment amount in the vertical direction by using a vertical driving stage 6. The sample-driving unit 4 drives the sample 2 in the vertical direction by a second adjustment amount smaller than the first adjustment amount.

Abstract: The pressure loss of liquid is reduced. More specifically, a degassing module includes: a pipe including an in-pipe flow path having a liquid supply port and a liquid discharge port, the pipe having a plurality of holes that allow the in-pipe flow path to be open; a hollow fiber membrane group formed by disposing a plurality of hollow fiber membranes on an outer circumferential side of the pipe so as to cover the plurality of holes; a housing configured to store the hollow fiber membrane group; a partition unit configured to partition a region in the housing into an internal region including an inner circumferential side space of each of the plurality of hollow fiber membranes, and an external region including an inter-membrane space between the plurality of hollow fiber membranes; an air intake port of the housing, the air intake port communicating with the internal region; and a baffle.

Abstract: A doped electrode is manufactured by an electrode manufacturing method. The doped electrode includes an active material doped with an alkali metal. In the electrode manufacturing method, a dope solution is brought into contact with an electrode. The electrode includes a current collector and an active material layer. The active material layer is formed on a surface of the current collector and includes the active material. The dope solution includes an alkali metal ion and flows. In the electrode manufacturing method, for example, the alkali metal is electrically doped to the active material using a counter electrode member arranged to face the electrode.

Abstract: A second busbar is provided that has a second electrode terminal and a second connection terminal. A first busbar is provided that has a first electrode terminal, a lateral side coupler, an overhang, and a first connection terminal. The first electrode terminal and/or the second electrode terminal has a protruding piece for connection (connecting protrusion). This protruding piece is elastically depressible in response to contact with an electrode surface of a capacitor element unit inserted from an opposite side of the lateral side coupler across a space between the first and second electrode terminals.

Abstract: An ultrasonic surgical instrument assembly including an irrigation sleeve assembly defining a lumen and an ultrasonic tip at least partially disposed within the lumen of the irrigation sleeve. The irrigation sleeve assembly may comprise a hub and an irrigation sleeve coupled to the hub. The irrigation sleeve may comprise an inner sheath and an outer sheath, both extending distally from the hub. The outer sheath may surround at least a portion of the inner sheath to define an irrigation passageway between the outer sheath and the inner sheath configured to deliver irrigation fluid to the surgical site. The distal end of the inner sheath may extend beyond the distal end of the outer sheath. Each of the inner and the outer sheath may be coupled to the hub by an annular sealing member configured to create fluid-tight seal between the hub and the respective inner and outer sheath.

Abstract: A second busbar is provided that has a second electrode terminal and a second connection terminal. A first busbar is provided that has a first electrode terminal, a lateral side coupler, an overhang, and a first connection terminal. The first electrode terminal and/or the second electrode terminal has a protruding piece for connection (connecting protrusion). This protruding piece is elastically depressible in response to contact with an electrode surface of a capacitor element unit inserted from an opposite side of the lateral side coupler across a space between the first and second electrode terminals.

Abstract: This illumination optical system has a laser light source (301, 401, 501), a light collection optical system (311, 4il, 51i), and a support structure (312, 412) that is able to secure the laser light source and the light collection optical system, wherein the light from the laser light source is focused onto an object to be inspected (307, 407, 507). The light collection optical system includes a cylindrical mirror (306, 406, 506), and at least one cylindrical lens (304, 404a, 404b, 4G4c, 504a, 5046, 504c). The cylindrical mirror is an optical element that collects light in a first direction, and the cylindrical lens is an optical element that collects light in a second direction perpendicular to the first direction. The focal distance of the cylindrical lens to the object to be inspected is greater than the focal distance of the cylindrical mirror to the object to be inspected.

Abstract: An information presentation method includes: sequentially obtaining, from a first appliance, appliance data including an operation status of the first appliance; receiving, from a second appliance different from the first appliance, notification of an opportunity of presenting information by the second appliance; determining, after receiving the notification in the receiving, whether to present the information by the second appliance, based on the appliance data obtained in the sequentially obtaining; and instructing the second appliance to present the information when determining to present the information by the second appliance in the determining, and prohibiting the second appliance from presenting the information when determining not to present the information by the second appliance in the determining.

Abstract: An ultrasonic surgical instrument assembly including an irrigation sleeve assembly defining a lumen and an ultrasonic tip at least partially disposed within the lumen of the irrigation sleeve. The irrigation sleeve assembly may comprise a hub and an irrigation sleeve coupled to the hub. The irrigation sleeve may comprise an inner sheath and an outer sheath, both extending distally from the hub. The outer sheath may surround at least a portion of the inner sheath to define an irrigation passageway between the outer sheath and the inner sheath configured to deliver irrigation fluid to the surgical site. The distal end of the inner sheath may extend beyond the distal end of the outer sheath. Each of the inner and the outer sheath may be coupled to the hub by an annular sealing member configured to create fluid-tight seal between the hub and the respective inner and outer sheath.

Abstract: This defect inspection device for emitting illumination light onto a moving and rotating sample and inspecting for sample defects by scanning the sample in a spiral shape or concentric circle shapes comprises: an illumination and detection unit comprising an emission optical system and a detection optical system; a rotary stage for rotating the sample; a rectilinear stage for rectilinearly moving the rotary stage; and a controller for controlling the illumination and detection unit, rotary stage, and rectilinear stage. On the linear path of the rectilinear stage are a scanning start position where illumination light is emitted onto the sample and scanning is started and a sample delivery position where movement of the sample to the scanning start position starts.

Abstract: The information processing method according to the present disclosure is for a device, and allows for sharing, between a home-appliance main microcontroller (13) and a communication module (11), a shared key that is an encryption key of a common-key cryptosystem for protecting a communication path (12) between the home-appliance main microcontroller (13) and the communication module (11).

Abstract: A surface inspection device (1) according to the present invention comprises: a plate-shaped sample holding member (3) which can hold a sample (2); a spindle motor (4) for rotating the sample holding member (3); a turntable (5) which is fixed to the spindle motor (4) and rotated by the spindle motor (4); a frame (6) to which the spindle motor (4) is fixed; a plurality of support members (12) each having one end fixed to the sample holding member (3) and the other end fixed to the turntable (5), the support members supporting the sample holding member (3) such that the sample holding member is displaceable in a focus direction which is the height direction with respect to the turntable (5); and a sample drive unit (11) which displaces the sample holding member (3) in the focus direction with respect to the turntable (5). This surface inspection device (1) can accurately drive the sample (2) in the focus direction.

Abstract: A defect inspection device in which an optical axis of a detection optical system is inclined with respect to a surface of a sample, and an imaging sensor is inclined with respect to the optical axis, a height variation amount of an illumination spot in a normal direction of the surface of the sample is calculated based on an output of a height measuring unit, a deviation amount of the focusing position with respect to the light receiving surface in an optical axis direction of the detection optical system is calculated based on the height variation amount of the illumination spot, the deviation amount of the focusing position being generated accompanying a height variation of the illumination spot, and the focus actuator is controlled based on the deviation amount of the focusing position, and scattered light intensities at the same coordinates of the sample are added.

Abstract: An information management device includes: an obtainer that obtains first company information and personal information from a first company, the first company information relating to a first product or service of the first company, the personal information relating to a user who has purchased the first product or who has been provided with the service; a company information storage that stores the first company information obtained; a personal information storage that stores the personal information obtained; an integrator that integrates the company information and the personal information based on a purchase record or a use record to generate integrated information, the purchase record indicating that the user has purchased the first product, the use record indicating that the user has used the service; and a manager that manages an output of the integrated information based on restriction information for restricting an output destination of the integrated information.

Abstract: This illumination optical system comprises a laser light source 301, 401, 501, a light collection optical system 311, 411, 511, and a support structure 312, 412 that is able to secure the laser light source and the light collection optical system, wherein the light from the laser light source is focused onto an object to be inspected 307, 407, 507. The light collection optical system comprises a cylindrical mirror 306, 406, 506, and at least one cylindrical lens 304, 404a, 404b, 404c, 504a, 504b, 504c. The cylindrical mirror is an optical element that collects light in a first direction, and the cylindrical lens is an optical element that collects light in a second direction perpendicular to the first direction. The focal distance of the cylindrical lens to the object to be inspected is greater than the focal distance of the cylindrical mirror to the object to be inspected.

Abstract: A content recording apparatus includes an obtaining unit which obtains a content having a variable-length packet structure, an encrypter which generates encrypted data by encrypting the content, and a recorder which records the encrypted data in a block unit having a fixed length in a recording medium. The encrypted data includes an invalidated region unnecessary for reproduction of the content. The recorder records a size of the invalidated region in the recording medium.